Matches in SemOpenAlex for { <https://semopenalex.org/work/W3208201712> ?p ?o ?g. }
- W3208201712 abstract "Abstract In electrodynamics, it has been long believed that when the electrostatic equilibrium is reached the electrostatic field outside a metal is always perpendicular to the metal surface. However, the tangential electrostatic field (TEF) may be discovered at the metal surface through the mechanical-electric coupling in the work. The TEF can lead to new knowledge and more accurate modification on electrostatics of metals including the electrostatic equilibrium conditions, uniqueness theorem, method of image charges, electrostatic shielding, Thompson’s theorem, and Green’s reciprocation theorem. The TEF and the mechanical-electric coupling can also indicate that an intrinsically intensive electrostatic field may exist at the nanoparticle surface. Thereby a unified model could be constructed for the surface-enhanced Raman scattering (SERS) which has been a long-standing problem in physics and chemistry in recent several decades. Furthermore, when the micro-electro-mechanical systems (MEMS) work, the deformation of the metal plate can induce an additional electrostatic field and a newly attractive electrostatic force between the metal plates. They may be important for the design and fabrication of high-performance MEMS devices. Overall, the revealed TEF may update the physical knowledge of the electrostatics of metals in electrodynamics and may acquire widespread applications in the areas of SERS, MEMS, and so on." @default.
- W3208201712 created "2021-11-08" @default.
- W3208201712 creator A5046332033 @default.
- W3208201712 date "2023-01-01" @default.
- W3208201712 modified "2023-09-23" @default.
- W3208201712 title "Tangential electrostatic field at metal surfaces" @default.
- W3208201712 cites W1183122250 @default.
- W3208201712 cites W154451633 @default.
- W3208201712 cites W1546843241 @default.
- W3208201712 cites W1582252665 @default.
- W3208201712 cites W1632044102 @default.
- W3208201712 cites W1811205482 @default.
- W3208201712 cites W1896622412 @default.
- W3208201712 cites W1971656047 @default.
- W3208201712 cites W1976081321 @default.
- W3208201712 cites W1978201146 @default.
- W3208201712 cites W1981947251 @default.
- W3208201712 cites W1986736815 @default.
- W3208201712 cites W1991978755 @default.
- W3208201712 cites W1994644206 @default.
- W3208201712 cites W1997747136 @default.
- W3208201712 cites W2000061454 @default.
- W3208201712 cites W2001983276 @default.
- W3208201712 cites W2007540011 @default.
- W3208201712 cites W2022098510 @default.
- W3208201712 cites W2025997657 @default.
- W3208201712 cites W2028440686 @default.
- W3208201712 cites W2036526749 @default.
- W3208201712 cites W2040306273 @default.
- W3208201712 cites W2044024547 @default.
- W3208201712 cites W2059265208 @default.
- W3208201712 cites W2070047909 @default.
- W3208201712 cites W2073507541 @default.
- W3208201712 cites W2073872893 @default.
- W3208201712 cites W2074473705 @default.
- W3208201712 cites W2074993800 @default.
- W3208201712 cites W2075748426 @default.
- W3208201712 cites W2079954478 @default.
- W3208201712 cites W2082239665 @default.
- W3208201712 cites W2084639921 @default.
- W3208201712 cites W2086018503 @default.
- W3208201712 cites W2086060010 @default.
- W3208201712 cites W2090966581 @default.
- W3208201712 cites W2091273808 @default.
- W3208201712 cites W2098224398 @default.
- W3208201712 cites W2101221513 @default.
- W3208201712 cites W2110300012 @default.
- W3208201712 cites W2114477930 @default.
- W3208201712 cites W2120604467 @default.
- W3208201712 cites W2125950824 @default.
- W3208201712 cites W2131798110 @default.
- W3208201712 cites W2138132901 @default.
- W3208201712 cites W2161606023 @default.
- W3208201712 cites W2165571442 @default.
- W3208201712 cites W2290701356 @default.
- W3208201712 cites W2312509482 @default.
- W3208201712 cites W2323958882 @default.
- W3208201712 cites W2552717798 @default.
- W3208201712 cites W2567337929 @default.
- W3208201712 cites W2591877025 @default.
- W3208201712 cites W2625500732 @default.
- W3208201712 cites W2734204036 @default.
- W3208201712 cites W2774576305 @default.
- W3208201712 cites W2886982188 @default.
- W3208201712 cites W2891656133 @default.
- W3208201712 cites W2938789811 @default.
- W3208201712 cites W2971763914 @default.
- W3208201712 cites W2990596200 @default.
- W3208201712 cites W3022225763 @default.
- W3208201712 cites W3032198615 @default.
- W3208201712 cites W3035041204 @default.
- W3208201712 cites W3036445192 @default.
- W3208201712 cites W3037333154 @default.
- W3208201712 cites W3094505630 @default.
- W3208201712 cites W3102366353 @default.
- W3208201712 cites W3131735448 @default.
- W3208201712 cites W3190280211 @default.
- W3208201712 cites W4241062113 @default.
- W3208201712 cites W4241736509 @default.
- W3208201712 cites W4243580231 @default.
- W3208201712 cites W4256232987 @default.
- W3208201712 cites W4293871807 @default.
- W3208201712 cites W4299582039 @default.
- W3208201712 cites W4302167771 @default.
- W3208201712 cites W71715545 @default.
- W3208201712 doi "https://doi.org/10.1515/phys-2022-0270" @default.
- W3208201712 hasPublicationYear "2023" @default.
- W3208201712 type Work @default.
- W3208201712 sameAs 3208201712 @default.
- W3208201712 citedByCount "0" @default.
- W3208201712 crossrefType "journal-article" @default.
- W3208201712 hasAuthorship W3208201712A5046332033 @default.
- W3208201712 hasBestOaLocation W32082017121 @default.
- W3208201712 hasConcept C117626034 @default.
- W3208201712 hasConcept C121332964 @default.
- W3208201712 hasConcept C131584629 @default.
- W3208201712 hasConcept C159985019 @default.
- W3208201712 hasConcept C171250308 @default.
- W3208201712 hasConcept C192562407 @default.
- W3208201712 hasConcept C202444582 @default.